Laser induction converts industrial hemp into graphene, replacing complex chemical processes with a single-step method.
Beam splitting and magnetic fields accelerate plasma contact with the copper foil, resolving low efficiency and separation complexity.
Laser-induced oxidation of boron carbide by water vapor leaves excess carbon, creating conductive layers that simplify nanoelectronic fabrication.
A carbon fiber film integrates graphene sheets with end-to-end joined carbon nanotubes to create a continuous conductive network.
Localized heating eliminates photoresist and etching steps in chemical vapor deposition, reducing processing time while maintaining manufacturing precision.
Single-tube simultaneous doping merges synthesis steps to control electrical properties without process complexity.
Bioderived graphene reduces transient gel formation in cement slurries, enabling construction grade cements for oil well applications.
Carbon nanotubes grow perpendicular to graphene platelets to form a three-dimensional spacer that prevents congregation and improves dispersion homogeneity.